Systems and methods for obtaining environmental data for an HVAC system are provided. Aspects include a housing, a transceiver, at least one environmental sensor, and a controller coupled to a memory, the controller configured determine a state of the at least one environmental sensor. And based at least in part on the state of the at least one environmental sensor being a failure state, obtain proximate environmental data.

Embodiments determine the effect of an environmental maintenance device on other environmental maintenance devices in environmentally controlled space. The determined effects may be modeled and graphically represented using, for example, an effectiveness map. In the case of a data center, an exemplary effectiveness map may illustrate the effect that one or more computer room air conditioners (CRACs) have on themselves and on other CRACs in the data center. In the case of an office building, an exemplary effectiveness map may illustrate the effect that one or more selected variable air volume (VAV) terminal units have on their own thermostat readings and the thermostat readings of other VAV terminal units in the office building.

Controlling heating and cooling in a conditioned space utilizes a fluid circulating in a thermally conductive structure in fluid connection with a hydronic-to-air heat exchanger and a ground heat exchanger. Air is moved past the hydronic-to-air heat exchanger, the air having fresh air supply and stale air exhaust. Sensors located throughout the conditioned space send data to a controller. User input to the controller sets the desired set point temperature and humidity. Based upon the set point temperature and humidity and sensor data, the controller sends signals to various devices to manipulate the flow of the fluid and the air in order to achieve the desired set point temperature and humidity in the conditioned space. The temperature of the fluid is kept less than the dew point at the hydronic-to-air heat exchanger and the temperature of the fluid is kept greater than the dew point at the thermally conductive structure.

A heating, ventilation, or air conditioning (HVAC) system for a building includes airside HVAC equipment configured to provide heating or cooling to one or more building spaces and one or more controllers. The one or more controllers are configured to generate airside energy targets for the one or more building spaces using a heat transfer model that defines a relationship between the airside energy targets, a temperature of the one or more building spaces, and a thermal capacitance of the one or more building spaces. The one or more controllers are configured to control the airside HVAC equipment in accordance with the airside energy targets.

Controlling heating and cooling in a conditioned space utilizes a fluid circulating in a thermally conductive structure in fluid connection with a hydronic-to-air heat exchanger and a ground heat exchanger. Air is moved past the hydronic-to-air heat exchanger, the air having fresh air supply and stale air exhaust. Sensors located throughout the conditioned space send data to a controller. User input to the controller sets the desired set point temperature and humidity. Based upon the set point temperature and humidity and sensor data, the controller sends signals to various devices to manipulate the flow of the fluid and the air in order to achieve the desired set point temperature and humidity in the conditioned space. The temperature of the fluid is kept less than the dew point at the hydronic-to-air heat exchanger and the temperature of the fluid is kept greater than the dew point at the thermally conductive structure.

The present invention relates to a method for controlling an air conditioner by recognizing a zone on the basis of artificial intelligence, a server and an air conditioner, and the air conditioner according to one embodiment of the present invention comprises: a controller for generating first space classification data for dividing a blowing zone into two or more on the basis of human body sensing data generated by a vision module and an image; and a communication unit for transmitting the human body sensing data to a server and receiving second space classification data from the server, wherein the controller controls the operation of the air conditioner by comparing the first space classification data and the second space classification data and dividing the blowing zone into a concentrated blowing zone and a non-concentrated blowing zone.

A control apparatus for a climate control system of a boat involves at least one processor, non-transitory storage accessible by the processor, and programming which, when executed by the at least one processor will cause the at least one processor to, when a water-fed climate control unit of the boat is operating A) determine a then-current depth at a current location of the boat, B) compare the then-current depth at the current location of the boat relative to a specified minimum acceptable depth, and C) when the then-current depth at the current location of the boat is less than the specified minimum acceptable depth, cause the CCU and water pump to shut off. A corresponding method is also described.

The indoor unit includes a plurality of outlet openings. In airflow rotation of the indoor unit, a full blowout mode and a partial blowout mode are executed. In the full blowout mode, all the outlet openings blow conditioned air. In the partial blowout mode, the flow of the blowing air of part of the outlet openings are blocked by the air current blocking mechanism, and thus the blowing wind speeds of the remaining outlet openings increases. As a result, an air temperature difference among parts of the indoor space decreases, and the comfort of the indoor space is improved.

A contaminant scrubber of a heating, ventilation, and air conditioning (HVAC) system includes a housing having a first side wall and a second side wall opposite to the first side wall. The contaminant scrubber also includes a first compartment formed within the housing, a second compartment formed within the housing and having a cartridge set removably disposed therein, and a third compartment formed within the housing, where the second compartment is positioned between the first compartment and the third compartment. The contaminant scrubber also includes a first cross-member beam extending along a first bottom end of the first compartment and a second top end of the second compartment, where the first cross-member beam extends from the first side wall of the housing to the second side wall of the housing. The contaminant scrubber also includes a second cross-member beam extending along a second bottom end of the second compartment and a third top end of the third compartment, wherein the second cross-member beam extends from the first side wall of the housing to the second side wall of the housing.

A utility connection system can include a primary utility spline having a length and a support frame. The utility connection system can include one or more utility conduits extending along at least a portion of the length of the primary utility spline and supported by the support frame. The system can include a sensor hub including one or more sensors; and one or more branch access interfaces having one or more ports in communication with the one or more utility conduits. The utility connection system can include a branch utility spline connected to the primary utility spline at the one or more branch access interfaces.